Summary: The text discusses the concept of molecular coherence and how it can be influenced by external factors like magnetic fields and light. It explains how light can induce coherence in water, causing water molecules to align, and how specific colors of light can change the magnetic properties of certain chemicals. The presentation highlights the fundamental observation that light can alter the arrangement of molecules, shifting them from a low to a high magnetic state, which is associated with increased coherence.
Okay. So what we looked here is a very important fact. We can increase energy efficiency in any type of cell by applying external magnetic field or having magnesium 25. And just to mention to Arzhan, we're just using one example here of the importance of the coherence -- molecular coherence in the body, which is that ATP synthesis. There's other examples, but obviously, we can't go through them all. Yes. Next question. Can light induce coherence? We're talking about very simple light, like a from a flashlight. Indeed, we can. So what Garrett Pollack in his research demonstrated, what you see here in this white color So somewhere around this zone, we call it exclusion zone. This is where highly coherent water is building up naturally to a hydrophobic surface. For example, in our cells, next to the cell membrane, there will be highly coherent water. Hydrophillic, yes, sorry. So And he thought, how can we build this coherent water? And in a very simple experiment, he put light, a source of light, and then he saw in real time how this zone of the coherent water start expanding along the beam of light. So something is happening. Again, think about this. Light comes in and each water molecule, remember water molecule is more like a dipole. It has this orientation. It has a negative pole and a positive pole. And as soon as the light comes in, the water molecules start to align themselves in this order exactly towards the beam of light. Okay. So this is one experiment. When we create coherent domains in water, next It's a bit technical, but I will explain it should be very simple. The phenomenon called photo-induced magnetisation. Now forget about the term now, think about it this way. About maybe 30 years ago already, a chemist discovered a very interesting phenomenon. They would take one particular material, some particular chemicals, and they would apply light to this chemical and suddenly this chemical changes its quality. So somehow just by applying light, the material would change its quality called photoinduced chemistry or photochemistry quite simply. So when they studied more and more about, they found out that there is a whole class of chemicals that can change their property depending on which color you would apply to this chemical. So on the left, you would see a particular shape of this chemical. And diamagnetic state, you can think about diamagnetic state as low coherence, low magnetic state. Then you would apply here blue green light. And then suddenly this molecule, this same very molecule now it's changing its shape, it's rotating. You see this this upper arm is kind of it bends inwards and exactly the same molecule now possess it has now magnetic field around it. So it was low magnetic become high magnetic by applying just light. And interestingly enough, if you apply here a violet blue light, it will switch back to the magnetic space. So what does it mean? We flight specific colors, specific wavelength, we can switch from non-magnetic to magnetic. It's called photo induced magnetisation. Okay, so the basic fundamental observation. White can change shape or arrangement of molecules, changing them from low magnetic state, which is low coherence to high magnetic state, which is high coherence.